M420057 五、新型說明： 【新型所屬之技術領域】 尤其是一種高增益多極 本創作係有關於一種天線陣列模組 化天線陣列模組。 【先前技術】 :卜隨=無線通訊的蓬勃發展，各種應用於多頻傳輸的產品與技 =孕⑽生’其巾天線係為躲傳輸巾用叫送和接收電 ^篁的重要元叙—。現今各種產品所_之天線，其設計方法 -使用材質均不_。因此，_適#的天線，可有助於提昇無 線傳輸之特性，並且同時降低產品之生產成本。 …、 一般而言’天線可區分為全向性天線和指向性天線。全向性 天=特性是輻射能制—平面上所有的方向。指向性天線則是 將能量集中輻射於某—個特定的角度範圍。因此，相較於全向性 φ天線於其特糾範圍中，可具有較大的天線增益。 牛例來况，傳統基地台使_三組指向性天線，其中各組指向性 天線係各自負責涵蓋水平角度為12Q度的扇形範圍。然而，在此 it况之下’傳統基地台所使用12〇度的扇形範圍的指向性天線， 仍然有其細範_廣_題。也就是說.，只有-小部份能量可 t被正確地翻制者之方向傳送，於此將造銳量的浪費。同 ¥ ’大部分錯錢被輻_其他地方，會對於其他的使用 者產生干擾。 此外，傳祕地台所採_天線單域為垂迪化或水平極 化’而用戶端使用之行動·則f慣與大地成 45度角，因此傳統 基地。的天線糾並未_戶制行動裝置的習慣列人考量，如 此亦會造敍線增益的下降，料通訊傳輸的品質。 其次，一般常用的天線單元包括單極天線(M〇n〇p〇le antenna)、倒f型天線(mverted_F咖咖)以及偶極天線卿此 antenna)等等。其巾雙偶極天線可有效地發送及狐電磁波因此 被廣泛運用於各種無線通訊的領域，目前現有技術下之偶 極天線.S產生之極化方向係為一固定方向，而不能隨產品或應 用肩域之地料外在條件做任何難，於此，天線在實際應用上 也因此受到相當大之限制。 【新型内容】 馨於以上之問題’摘作提出—種高增益多極化天線陣列模 組’不僅可利用天線陣列與巴特勒矩陣產生波束形成出讀 Forming)，令天線陣列產生的波束可依所設定之特定角度偏擺，大 幅增加天線之收訊品質，更可彻複數個偶極天線形成多極化之 天線陣列’進-步制天轉狀極化方向可調變之目的。 本創作提出一種高增益多極化天線陣列模組，具有一反射 板、至少-多極化天線陣肋—巴特勒矩轉.針多極化天 線陣列與巴特勒矩陣陣列係分別配置於反射板之相異二側面上。、 多極化天線_包域數個偶極天線，其巾各多極化天線陣列且 有二饋入埠’且該等饋人4係用以饋人輸人訊號，偶極天線可形 成-第-極化方向$-第二極化方向。巴特勒矩陣陣列包括一第 數個裳—轉與—第二巴特勒矩陣，其中第—巴特勒矩陣包括複 奴合私!m度相位變魅、第—輸入痒以 輪出埠，且該等第一輸出埠係分別電性連接至多極化天線 哭歹=饋入埠。第二巴特勒矩陣包括複數個第二角度混合竊合 =二角度相位變絲、第二輸人埠以及第二輸料，且該等 弟-輸出埠係分別電性連接至多極化天線陣列之饋入璋。 根據本創作提出之高增益多極化天鱗聰組，其中偶極天 線包括：-輻雜絲少—支雜。輻射減於反驗上，且輕 射板包括：細_單元、複數個第—槽孔與複數個第二槽孔。 其中各輻料元包n子輻射料鱗接於第—子騎單元 之第y子輕射單元。各第一槽孔位於第一子輻射單元.中’且第一 槽=係向第-子輕射單元的兩端延伸。各第二槽孔的—第一端連 接弟&孔’且各第二槽孔的―第二端係向第二子輻射單元延 伸。支撐柱連接於輻射板與反射板之間，以支撐輻射板於反射板 上其中各1)½射單兀之各第二子輕射單元係相互銜接在一起。 根據本創作提出之高增益多極化天線陣列模組，其中支樓柱 與反射板係為一體成型。 根據本創作提出之高增益多極化天線陣列模組，其中第 入埠與第二輪人埠係電性連接至—切㈣，經由切換器進㈣ 換’令多減天_触抑角度之波束軸之間進行切換。 根據本創作提出之高增益多極化天線陣列模組，其中當 部訊號輸人第-巴特勒瞒時，多極化天_列產生的電ς钟 M420057 的極化方向為45。，當外部訊號輸入第二巴特勒矩料，多極化天 線障歹】產生的電磁場形的極化方向為-45。。 疋以’本創作提出之高增益多極化天線陣列模組，係使用多 個巴特勒矩陣以及至少―天線陣列模組，產生多種不同的極化方 向集中於特定角度的波束形成，不僅可增加天線之收訊品質，亦 具有可調變天轉列之極化方向的優點。 以上有關於本創作的内容說明，與以下的實施方式係用以示 範與解釋本創作的精神與原理，並且提供本創作的專利申請範圍 更進步的解釋。彳關本創作的特徵、實作與功效，兹配合圖式 作較佳實施例詳細說明如下。 【實施方式】 以下在μ麵方式中詳細敘述本創作之詳細特徵以及優點，其 内今足以使任何熟習相關技蟄者了解本創作之技術内容並據以實 施’且根據本說明書所揭露之内容、中請專利範圍及圖式，任何 ^習相關技藝者可妈地轉摘翻社目的及優點。以下之 貝也例係it步詳細_本創作之觀點，但非以任何觀點限制本 創作之範疇。 a清-併參閱「第1圖」與「第2圖」，係分別為根據本創作實 e例之呵增益多極化天鱗韻組，其組合示意圖與爆炸分解 圖。高增益多極化天線陣列模組咖具有一反射板刚，且反射 板100之相異一側面上分別具有至少一多極化天線陣列與巴特勒 矩陣陣列’町之貫施方式係以高增益多極化天斜舰組議0 M420057 包括多極化天線_取廉池施及㈣她轉列包括第一 巴特勒矩陣210與第二巴特勒矩陣22〇作為本創作—實施例之說 明。然❼，多極化天線陣列之數目並非用以限定本創作之範圍， 設計者可視魏天賴組之規格需求.，而自行蚊所需配置多極 化天線陣列之數量。其中多極化天線陣列2〇a包括複數個 •線202，且多極化天線陣列20b，廉,施之結構與紐操作原理係 相同於多極化天線陣列20a，故便於說明僅以多極化天線陣列施 ®作為以下之說明。 「第3圖」係為根據本創作實施例之偶極天線，其上視圖。 其中偶極天線202具有一輻射板22與至少一支撐柱24。其中輻射 板22包括複數個輻射單元22a,22b，22c，22d、複數個第一槽孔 232a，232b，232c，232d 與複數個第二槽孔 234a，234b，234c，234d。以下 係以輕射單元22a作為一實施例說明，而輻射單元22b，22c，22d的 結構皆與輻射單元22a相同，故不再重述。輻射單元22a包含第 ® —子幸g射單元28]a與第二子輕射單元282a’其中第二子輕射單元 282a係連接於第一子輕射單元281a’且二者之形狀大致成一 τ字 型。第一槽孔232a位第一子輻射單元281a中，並且向第一子 輻射單元281a之二端延伸。第二槽孔234a位於第二子輻射單元 282a中，且第二槽孔234a的第一端連接第一槽孔232a，第二槽孔 234a的第二端係向第二子輻射單元282a延伸。其中輻射單元22a 的第二子輻射單元282a、輻射單元22b的第二子輻射單元282b、 輻射單元22c的第二子輻射單元282c以及輻射單元22d的第二子 M420057 輻射單元282d係互相連接在 23轨234b，234c，234d亦相互連通。 一起，且其各自的第二槽孔 24圖」係為根據「第3圖」之偶極天線，其側視圖，宜 牙 =4係分财接於姉板22與反射板觸之間。舉例而 二# 24可以疋但不限於連接在輻射單元22b的第-子輻射 早兀腦與反触1GG之間，亦可叹但靴於連接在輻射單元 似的第一子輻射單元则與反射板謂。其中支標柱24與反射 板100可以為-體成雖_ in a singie b_)，以支撐輻射板^ 於反射板100之上’並減少天線結構額外之製作成本。 第5圖」係為根據本創作實施例之高增益多極化天線陣列 模組’其後視之爆炸分解圖。由「第5圖」可見，巴特勒矩陣陣 列(意即第-巴特勒矩陣21〇與第二巴特勒矩陣22〇)與反射板刚 之間亦可以複數個連接柱26a?26b，26e，26d銜接之，且連接柱 26a，26b，26c，26d與反射板100亦可為一體成型^。^^出a singie body)，以減少巴特勒矩陣陣列結構之額外製作成本。 以下之說明請一併參閱「第5圖」與「第6圖」，其中「第6 圖」係為根據本創作實施例之巴特勒矩陣陣列，其功能方塊圖。 第一巴特勒矩陣210包括複數個第一角度混合麵合器 2211222422312243、複數個第一角度相位變換器241 a，242a、複 數個第一輸入埠251a,252a,253a，254a、複數個第一輸出蟑 261a:262a，263a，264a以及一跳線器27a。根據本創作之一實施例， 第一角度混合麵合器221 a,222a,223a,224a可以是混合角度為90。 M420057 之耦合器，且第一角度相位變換器241a電性連接於第一角度混合 耦合器221a^23a之間，第一角度相位變換器242a電性連接於第 一角度混合耦合器222a，224a之間。此外，跳線器27a電性相連於 第一角度混合耦合器221a，224a之間，且跳線器27a亦電性相連於 第一角度混合耦合器.222a，223a之間，其中第一角度相位變換器 2414242a的相位變換角度為45。。 第二巴特勒矩陣220包括複數個第二角度混合耦合器 ♦ 22lb，222b，223b，224b、複數個第二角度相位變換器鳥’織、複 數個第二輸入埠251b，252b，253b，254b、複數個第二輸出埠 261b，262b，263b，264b以及-跳線器27b。射第二肖度混合麵合器 221b，222b,223b,224b可以是混合角度為9〇。之麵合器，且第二角度 相位變換器24lb，242b的相位變換角度為_45。。其餘第二巴特勒矩 陣220之連接方式與第一巴特勒矩陣21〇皆相同。 __ 其中巴特勒矩陣陣列之輸入埠(意即第一巴特勒矩陣21〇之第 ® -輸入埠251^252125312543與第二巴特勒矩陣22〇之第二輸入 埠2511?，2521}，2531)，2541))係設置於底板3〇〇之上。於此，第_巴特 勒矩陣210與第二巴特勒矩陣22〇係設置於底板與反射板_ 之間，並藉由連接柱26a，26b，26c，26d接合於反射板100之背面。 巴特勒矩陣陣列之輸出埠(意即第一巴特勒矩陣21〇之第一輸出埠 261a.262a，263a，264a與第二巴特勒矩陣22〇之第二輸出埠 261b，262b，263b，264b)係分別電性連接至多極化天線陣列 2(^201?”各自之訊號饋入埠。舉例而言，第—巴特勒矩陣 9 M420057 21〇的第一輸出埠可各自電性連接於多極化 天線陣列2(^2(^，2(^，20(1之訊號饋入埠。第二巴特勒矩陣22〇的 第二輸出埠261b，262b，263c，264d可各自電性連接於多極化天線陣 列20\20(ί，201)，2(Μ之訊號饋入埠。於此，多極化天線陣列 2〇\2〇1)，2(^，20〇1即各自具有電性連接於第一巴特勒矩陣21〇與第 二巴特勒矩陣220之二饋入埠，以饋入自巴特勒矩陣陣列輸出之 訊號。 請參照「第7圖」’係為根據本創作實施例之巴特勒矩陣陣列， 其細部示意圖。第一巴特勒矩陣210包括第一角度混合耦合器 221a，222a，223a,224a、第-角度相位變換器241^2423 5第-輸人 埠2511252^25312543以及跳線器27a。第二巴特勒矩陣22〇包括 第二角度混合耦合器221b，222b，223b，224b、第二角度相位變換器 241b，242b、第二輸入埠 251b,252b,253b,254b 以及跳線器 27b。上 述之混合耦合器係將訊號傳遞線路做一方形結構設計，而跳線器 則是一 8字型結構。其中第一巴特勒矩陣21〇的第一角度相位變 換器241〇5242a係藉由將訊號傳遞線路做一彎折設計，.以將訊號之 相位做45°之相位延遲。而第二巴特勒矩陣220的第二角度相位變 換益241b,242b則疋藉由將訊號傳遞線路做另一種彎折設計，以將 訊號之相位做-45。之相位延遲。其中各元件之連接關係同「第6 圖」所示。舉例而言，當外部訊號輸入第一巴特勒矩陣21〇時， 多極化天線陣列20a即可產生極化方向為45。之電磁場形，而當外 部訊號輸入第一巴特勒矩陣220時，多極化天線陣列:20a即可產 M420057 生極化方向為-45。之電磁場形。其中第一巴特勒矩陣2i〇與第二巴 特勒矩陣220係各自採用電路板取挪做為其基板。上述各元件 係設置於電路板椒28b之上，且各元件之間可使用金屬線或是其 他可傳送訊號之元件相連結。 詳細而言’請一併參閱「第2圖」，根據本創作之實施例，偶 極天線202可分卿成一第一極化方向或-第二極化方向。高增 里户極化天線陣列模組1〇0〇包括一電性基板，電性連接於反 射板_與多極化天線陣列20a之間，其中電性基板·可選擇 性地僅配置於部分之偶極天線搬與反射板觸之間。 各個偶極天線202係紐連接於—訊號線，於此，偶極夭線 2〇2即可藉由訊號線連接至電性基板彻之連結方式，而產生不同 之極化方向。承前述而言，訊號線可分別位於輻射單元 22a，22b，22c，22d 之第二子輪射單元 282aj282b,282c,282d，其中4壬二 者之第二端上。 舉例而言，當多極化天線陣列2〇a的各個偶極天線2〇2，其訊 號線係連接於耗射單元22a的第二子_單元施與電性基板 彻的第-側邊之間時，偶極天線2〇2係形成第一極化方向。 至於田^極化天線陣列2〇a的各個偶極天線2〇2，其訊號線 係連接於輻射單元22b的第二子韓射單元施與電性基板的 第二側邊之間時，偶極天線202則形成第二極化方向。 舉例而&，當一外部訊號輸入第—巴特勒矩陣21〇的第一巴 h勒輸入琿(思即第一輸入埠2sla)時，多極化天線陣列2如產生的 M420057 辆場形的極化方向為45。，且其偏湖度大致上為-Κ)。，·輸入第 特勒矩陣2Κ)的第一巴特勒輸入蟑(意即第一輸入谭25：2a) 時，多極化天線陣列20a產生的電磁場形的極化方向為45。，且其 偏擺角度大致上為+30。；輸入第一巴特勒矩陣21〇的第三巴特勒 輸入埠U、即第-輸入埠253a)時，多極化天線陣列2〇a產生的電磁 易开肩極化方向為45。’且其偏擺角度大致上為·3〇。；輸入第一巴 特勒矩陣2丨〇的第四巴特勒輪入蜂(意即第一輸入埠2地)時，多 極化天線陣列施產生的電磁場形的極化方向為45。，且其偏擺角 度大致上為10。。於此’根據本創作實施例之高增益多極化天線陣 列輪組’即可藉由第—巴特勒矩陣210，令多極化天線陣列2〇a 產生之波束依據不同角度偏擺，並藉此增加多極化天線陣列施 之收訊品質。 至於當外部訊號輸入第二巴特勒矩陣22〇的第一巴特勒輸入 埠(意即第二輸入槔251b)時，多極化天線陣列應產生的電磁場 形的極化方向為-45。1其偏擺角度大致上為_1()。；輸人第二巴特 勒矩陣220的第一巴特勒輸入淳(意即第二輸入璋2汹)時，多極 匕天線陣歹j 20a產生的電磁場开)的極化方向為_45。’且其偏擺角度 大致上為+3〇。；輸入第二巴特勒矩陣22〇的第三巴特勒輸入痒(意 即第二輸入埠253b)時’多極化天線陣列遍產生的電磁場形的極 化方向為-45。’且其偏擺角度大致上為·3〇。；輸入第二巴特勒矩陣 22〇的第四巴特勒輸入槔(意即第二輸入琿a4的時，乡極化天線陣 .列20a產生的電磁場形的極化方向為_45。，且其偏擺角度大致上為 12 M420057 10。。於此’根據本創作實施例之高增益多極化天線陣列模組，亦 可藉由第二巴特勒矩陣220，令多極化天線_ 2〇a產生之波束依 據不同角度偏擺’並藉此增加多極化天線陣列2〇a之收訊品質。 於此需說明的是，關於本實施例所述之偏擺角度與極化方向僅為 敘述之用’並不做為本創作之關’於本倾中具有通常知識者 可以根據本創狀精神設計不同偏擺角度與極化方向，令天線陣 列之波束軸(B_ Formic)可依所奴之狀肖度健，並藉此 產生多種不同.化方向針於較角度的波束形成。 其次’根據本創作之又一較佳實施例，第一輸入埠 與第二輸入埠 251b，252b，253b，254b 更可藉由 電性連接至-_器，並經由細奐器進行切換後，令多極化天 線陣列20a在不同角度之波束形成之間進行切換，以達較佳之天 線收訊品質。 疋以’根據摘作實施例之多極化天線_即可根據偶極天 線之訊號線與紐基板的連結方式’以產生不同之極化方向。並 且’由硬數_極天線組成之多極化天線陣列，更可藉由連 ==㈣，以產生多種~方向集中於特 ^成。疋以，根據本創作實施例之高增益多極化天 線陣列模組，不僅令天線_產生之波束可 可藉此達到健收訊品質且高增益之多極化天線陣歹且扁擺亚 【圖式簡單說明】 第1圖係為根據本創作實施例之高增益多極化天線陣列模 13 M420057 組，其組合示意圖； 第2圖係為根擔 象本創作貫施例之高增益多極化天線陣列模 組，其爆炸分解圖； 、 θ六為根據本創作實施例之多極化偶極天線，其上視圖； 第4圖係為根_3圖之偶極天線，其侧視圖； 第5圖係為根據本 組’其後視之爆炸分解圖 創作實施例之高增益多極化天線陣列模 第6圖係為根據本創作實施例之巴特勒矩陣陣列，其功能 塊圖，以及 第.7圖係為根據本創作實施例之巴特勒矩陣陣列，其細部示 意圖。 【主要元件符號說明】 20a，20b，20c，20d 多極化天線陣列 22 輻射板 22a,22b,22c,22d 輻射單元 24 支#柱 26a,26b,26c,26d 連接柱 27a, 27b 跳線器 28a,28b 電路板 100 反射板 202 偶極天線 210 第一巴特勒矩陣 14 M420057 220 第二巴特勒矩陣 22 la,222a,223a,224a 第一角度混合耦合器 22 lb,222b,223b,224b 第二角度混合耦合器 232a,232b,232c,232d 第一槽孔 234a,234b,234c,234d 第二槽孔 24 la,242a 第一角度相位變換器 24 lb,242b 第二角度相位變換器 251 a,252a,253a,254a 第一輸入埠 25 lb,252b,253b,254b 第二輸入埠 26 la,262a,263a,264a 第一輸出埠 26 lb,262b,263b,264b 第二輸出埠 281a,281b,281c,281d 第一子輻射單元 282a,282b,282c,282d 第二子輻射單元 300 底板 400 電性基板 1000 高增益多極化天線陣列模組 15M420057 V. New description: [New technology field] Especially a high-gain multi-pole This series is about an antenna array modular antenna array module. [Prior Art]: Bu with = the rapid development of wireless communication, various products and technologies used in multi-frequency transmission = pregnancy (10) students' towel antennas are important elements for hiding transmissions and sending and receiving electricity. . Today's various products, the antenna, the design method - the use of materials are not _. Therefore, the antenna of _ _ can help to improve the characteristics of wireless transmission, and at the same time reduce the production cost of the product. ..., in general, antennas can be distinguished as omnidirectional antennas and directional antennas. Omnidirectionality Day = characteristic is the radiant energy system - all directions on the plane. A directional antenna concentrates energy on a specific range of angles. Therefore, compared to the omnidirectional φ antenna, it can have a larger antenna gain in its special correction range. In the case of cattle, the traditional base station makes _ three sets of directional antennas, each of which is responsible for covering a fan-shaped range with a horizontal angle of 12Q degrees. However, under this condition, the directional antenna of the 12-degree fan-shaped range used by the traditional base station still has its own ambiguity. That is to say, only - a small amount of energy can be transmitted in the direction of the correct turner, which will create a waste of sharpness. Same as ¥ ‘Most of the wrong money is spewed _ other places, it will interfere with other users. In addition, the secret base station adopts _ antenna single domain for vertical or horizontal extreme 'and the user's action is used to f form a 45 degree angle with the earth, so the traditional base. The antenna correction has not been taken into account by the habits of the household mobile device. As a result, the gain of the line can be reduced and the quality of the communication transmission. Secondly, commonly used antenna units include a monopole antenna (M〇n〇p〇le antenna), an inverted f-type antenna (mverted_F coffee), and a dipole antenna. The double dipole antenna of the towel can effectively transmit and emit electromagnetic waves, so it is widely used in various fields of wireless communication. At present, the polarization direction generated by the dipole antenna of the prior art is a fixed direction, and cannot be along with the product or It is difficult to apply the external conditions of the shoulder field, and the antenna is also considerably limited in practical applications. [New content] Xin's problem above is proposed as a kind of high-gain multi-polarized antenna array module, which can not only use the antenna array and the Butler matrix to generate beamforming reading, so that the beam generated by the antenna array can be set according to the setting. The specific angle yaw greatly increases the receiving quality of the antenna, and the antenna array of the multi-polarized antenna can be formed into a multi-polarized antenna array. The present invention proposes a high-gain multi-polarized antenna array module having a reflector, at least a multi-polarized antenna array rib - a Butler moment rotation, a needle multi-polarization antenna array and a Butler matrix array system respectively disposed on different sides of the reflector . , multi-polarized antenna _ packet field several dipole antennas, the multi-polarized antenna array of the towel and two feeds 埠 ' and the feed 4 is used to feed the input signal, and the dipole antenna can form the - polarization Direction $-second polarization direction. The Butler matrix array includes a number of skirt-turn and - second Butler matrices, wherein the first-butler matrix includes a complex slave and a private! m-degree phase enchantment, the first-input itch to turn out, and such The first output system is electrically connected to the multi-polarized antenna, respectively, = feed 埠. The second Butler matrix includes a plurality of second angle hybrid stealing=two angle phase changing wires, a second input channel, and a second material, and the wires are respectively electrically connected to the multi-polarized antenna array. Enter. According to the creation of the high-gain multi-polarization Tianzong Cong group, the dipole antenna includes: - a few kinds of spokes - a mixture of impurities. The radiation is reduced on the back test, and the light-emitting plate includes: a fine_unit, a plurality of first-slot holes and a plurality of second slots. The radiant material of each of the spokes is connected to the yth sub-lighting unit of the first sub-riding unit. Each of the first slots is located in the first sub-radiation unit. and the first slot = extends toward both ends of the first sub-lighting unit. The first end of each of the second slots is connected to the & hole & the second end of each of the second slots extends toward the second sub-radiation unit. The supporting column is connected between the radiant panel and the reflecting plate to support the radiant panel on the reflecting plate, wherein each of the second sub-lighting unit units of each of the 1 2 射 。 。 相互 。 。 。 。 。 。 。 。 。 。 According to the creation of the high-gain multi-polarized antenna array module, the branch column and the reflector are integrally formed. According to the high-gain multi-polarized antenna array module proposed by the present invention, the first input and the second round of the human body are electrically connected to the -cut (four), and the beam axis is changed by the switcher (four) Switch between. According to the high-gain multi-polarization antenna array module proposed by the present invention, when the signal is input to the first-Butler, the polarization direction of the electric chirp clock M420057 generated by the multi-polarization day column is 45. When the external signal is input to the second Butler moment material, the multi-polarized antenna barrier produces a polarization direction of -45. . The high-gain multi-polarized antenna array module proposed by the author uses a plurality of Butler matrices and at least an antenna array module to generate a plurality of different beam directions formed by focusing on a specific angle, which not only increases the antenna. The quality of the reception also has the advantage of being able to adjust the polarization direction of the day. The above description of the contents of this creation, and the following embodiments are used to illustrate and explain the spirit and principles of the present creation, and provide a more advanced explanation of the scope of the patent application of the present creation. The characteristics, implementation and efficacy of this creation are described in detail below with reference to the preferred embodiment. [Embodiment] Hereinafter, the detailed features and advantages of the present invention will be described in detail in the μ-face mode, which is sufficient for any skilled person to understand the technical content of the present invention and to implement the contents according to the present specification. In the case of patents and drawings, any skilled person can transfer the purpose and advantages of the company. The following examples are also based on the details of this creation, but do not limit the scope of this creation by any point of view. a clear - and refer to "1st picture" and "2nd picture", which are the combination of the multi-polarization Tianliangyun group according to the creation of the example, the combination diagram and the exploded view. The high-gain multi-polarized antenna array module has a reflector plate, and the different side faces of the reflector plate 100 respectively have at least one multi-polarized antenna array and a Butler matrix array 'the method of the high-gain multi-polarization celestial ship Discussion 0 M420057 includes a multi-polarized antenna _ depletion pool application (four) she voluntarily includes a first Butler matrix 210 and a second Butler matrix 22 〇 as a description of the present creation - embodiment. Then, the number of multi-polarized antenna arrays is not intended to limit the scope of this creation. The designer can see the specification requirements of the Wei Tian Lai group, and the number of multi-polar antenna arrays required for the self-mosquito. The multi-polarized antenna array 2A includes a plurality of lines 202, and the multi-polarized antenna array 20b is the same as the multi-polarized antenna array 20a. Therefore, it is convenient to explain that only the multi-polarized antenna array is used as the following Description. "Fig. 3" is a top view of a dipole antenna according to the present embodiment. The dipole antenna 202 has a radiant panel 22 and at least one support post 24. The radiant panel 22 includes a plurality of radiating elements 22a, 22b, 22c, 22d, a plurality of first slots 232a, 232b, 232c, 232d and a plurality of second slots 234a, 234b, 234c, 234d. Hereinafter, the light-emitting unit 22a will be described as an embodiment, and the radiation units 22b, 22c, 22d have the same structure as the radiation unit 22a, and therefore will not be described again. The radiating unit 22a includes a first sub-lighting unit 28]a and a second sub-lighting unit 282a', wherein the second sub-lighting unit 282a is connected to the first sub-lighting unit 281a' and the shapes of the two are substantially one τ font type. The first slot 232a is located in the first sub-radiation unit 281a and extends toward both ends of the first sub-radiation unit 281a. The second slot 234a is located in the second sub-radiation unit 282a, and the first end of the second slot 234a is coupled to the first slot 232a, and the second end of the second slot 234a extends toward the second sub-radiation unit 282a. The second sub-radiation unit 282a of the radiating unit 22a, the second sub-radiation unit 282b of the radiating unit 22b, the second sub-radiation unit 282c of the radiating unit 22c, and the second sub-M420057 radiating unit 282d of the radiating unit 22d are connected to each other at 23 The rails 234b, 234c, 234d are also in communication with one another. Together, and their respective second slots 24 are shown as "dipole antennas" according to "Fig. 3", the side view of the teeth is connected between the seesaw 22 and the reflector. For example, the second #24 may be, but is not limited to, connected to the first sub-radiation of the radiation unit 22b between the early brain and the anti-touch 1GG, but the shoe may be connected to the first sub-radiation unit connected to the radiation unit. Board said. The support post 24 and the reflector 100 may be _ in a singie b_) to support the radiant panel above the reflector 100 and reduce the additional manufacturing cost of the antenna structure. Fig. 5 is an exploded view of the rear view of the high gain multi-polarized antenna array module according to the present embodiment. It can be seen from Fig. 5 that the Butler matrix array (meaning the first-butler matrix 21〇 and the second Butler matrix 22〇) and the reflector can also be connected to a plurality of connecting columns 26a? 26b, 26e, 26d. The connecting posts 26a, 26b, 26c, 26d and the reflecting plate 100 can also be integrally formed. ^^ a singie body) to reduce the extra manufacturing cost of the Butler Matrix array structure. Please refer to "Figure 5" and "Figure 6" for the following description. "Figure 6" is a functional block diagram of the Butler Matrix Array according to the present creative embodiment. The first Butler matrix 210 includes a plurality of first angle mixing combiners 22112224223312243, a plurality of first angle phase converters 241a, 242a, a plurality of first input ports 251a, 252a, 253a, 254a, a plurality of first outputs蟑 261a: 262a, 263a, 264a and a jumper 27a. According to one embodiment of the present creation, the first angle mixing facers 221a, 222a, 223a, 224a may have a mixing angle of 90. a coupler of M420057, and the first angle phase converter 241a is electrically connected between the first angle hybrid couplers 221a to 23a, and the first angle phase converter 242a is electrically connected to the first angle hybrid couplers 222a, 224a. between. In addition, the jumper 27a is electrically connected between the first angle hybrid couplers 221a, 224a, and the jumper 27a is also electrically connected between the first angle hybrid couplers .222a, 223a, wherein the first angle phase The phase change angle of the converter 2414242a is 45. . The second Butler matrix 220 includes a plurality of second angle hybrid couplers ♦ 22 lb, 222b, 223b, 224b, a plurality of second angular phase converters, a plurality of second inputs 埠 251b, 252b, 253b, 254b, A plurality of second outputs 埠 261b, 262b, 263b, 264b and a jumper 27b. The second Shore Mixing Mask 221b, 222b, 223b, 224b may have a mixing angle of 9 〇. The face closer, and the phase angle of the second angle phase converters 24lb, 242b is _45. . The remaining second Butler matrix 220 is connected in the same manner as the first Butler matrix 21〇. __ where the input 埠 of the Butler matrix array (ie, the first Butler of the first Butler matrix 21 - input 埠 251^252125312543 and the second input of the second Butler matrix 22 埠 2511?, 2521}, 2531), 2541)) is placed on the bottom plate 3〇〇. Here, the first-Battler matrix 210 and the second Butler matrix 22 are disposed between the bottom plate and the reflecting plate _, and are joined to the back surface of the reflecting plate 100 by the connecting posts 26a, 26b, 26c, 26d. The output 埠 of the Butler matrix array (ie, the first output 埠 261a. 262a of the first Butler matrix 21 ,, 263a, 264a and the second output 埠 261b, 262b, 263b, 264b of the second Butler matrix 22 )) They are electrically connected to the respective signal feeds of the multi-polarized antenna array 2 (^201?). For example, the first output ports of the first-butler matrix 9 M420057 21〇 can be electrically connected to the multi-polarized antenna array 2, respectively. (^2(^, 2(^, 20 (1 signal feed 埠. The second output 埠 261b, 262b, 263c, 264d of the second Butler matrix 22 可 can be electrically connected to the multi-polarized antenna array 20\20 (ί, 201), 2 (Μ signal feed 埠. Here, multi-polarized antenna array 2〇\2〇1), 2 (^, 20〇1 are each electrically connected to the first Butler matrix 21〇 And the second Butler matrix 220 is fed into the 埠 to feed the signal output from the Butler matrix array. Please refer to FIG. 7 as a detailed diagram of the Butler matrix array according to the present creative embodiment. The first Butler matrix 210 includes a first angle hybrid coupler 221a, 222a, 223a, 224a, a first-angle phase change 241^2423 5 first-input 埠2511252^25312543 and jumper 27a. The second batler matrix 22 〇 includes second angle hybrid couplers 221b, 222b, 223b, 224b, second angular phase converters 241b, 242b The second input ports 251b, 252b, 253b, 254b and the jumper 27b. The hybrid coupler described above has a square structure design of the signal transmission line, and the jumper is an 8-shaped structure. The first angle phase converter 241〇5242a of the Le matrix 21〇 is designed by bending the signal transmission line to delay the phase of the signal by 45°, and the second of the second Butler matrix 220. The angle phase change benefits 241b, 242b are designed to make the phase of the signal a phase delay of -45 by using the signal transmission line as another bend design. The connection relationship of each component is shown in Fig. 6. For example, when the external signal is input to the first Butler matrix 21〇, the multi-polarized antenna array 20a can generate an electromagnetic field shape with a polarization direction of 45. When an external signal is input to the first Butler matrix 220, the multi-polarized antenna array :20a The M420057 can be produced with a polarization direction of -45. The electromagnetic field shape of the first Butler matrix 2i〇 and the second Butler matrix 220 are each taken as a substrate by the circuit board. The above components are arranged on the circuit board. Above the 28b, and the components can be connected by metal wires or other components capable of transmitting signals. For details, please refer to "Fig. 2". According to the embodiment of the present invention, the dipole antenna 202 can be The division is in a first polarization direction or a second polarization direction. The high-enriched polarized antenna array module includes an electrical substrate electrically connected between the reflector _ and the multi-polarized antenna array 20a, wherein the electrical substrate can be selectively disposed only in part The pole antenna is moved between the reflector and the reflector. Each of the dipole antennas 202 is connected to the signal line. Here, the dipole line 2〇2 can be connected to the electrical substrate by the signal line to generate different polarization directions. In the foregoing, the signal lines can be located on the second sub-rotation units 282aj282b, 282c, 282d of the radiating elements 22a, 22b, 22c, 22d, respectively, on the second ends of the two. For example, when the respective dipole antennas 2〇2 of the multi-polarized antenna array 2〇a are connected between the second sub-unit of the consumable unit 22a and the first side of the electrical substrate The dipole antenna 2〇2 forms a first polarization direction. As for the dipole antennas 2〇2 of the field antenna array 2〇a, the signal line is connected between the second sub-Han unit of the radiation unit 22b and the second side of the electrical substrate, The pole antenna 202 then forms a second polarization direction. For example, when an external signal is input to the first bar Heller input of the first-butler matrix 21〇 (thinking the first input 埠2sla), the polarization of the multi-polarized antenna array 2 such as the generated M420057 field shape The direction is 45. And its partial lake degree is roughly -Κ). When the first Butler input 蟑 (meaning the first input Tan 25: 2a) of the Tyler matrix 2 Κ) is input, the polarization direction of the electromagnetic field generated by the multi-polarized antenna array 20a is 45. And its yaw angle is roughly +30. When the third Butler input 埠U of the first Butler matrix 21〇, that is, the first input 埠 253a) is input, the electromagnetic easy-to-open shoulder polarization direction generated by the multi-polarized antenna array 2〇a is 45. And its yaw angle is roughly 3. When the fourth Butler wheel of the first Bartle's matrix 2 is input (meaning the first input 埠 2 ground), the polarization direction of the electromagnetic field generated by the multi-polarized antenna array is 45. And its yaw angle is roughly 10. . The 'high-gain multi-polarized antenna array wheel set according to the present creative embodiment' can cause the beam generated by the multi-polarized antenna array 2〇a to be yawed according to different angles by using the first-butler matrix 210, thereby increasing the multi-polarized antenna The quality of the reception of the array. As for the external signal input to the first Butler input 第二 of the second Butler matrix 22〇 (meaning the second input 槔 251b), the multi-polarized antenna array should generate an electromagnetic field with a polarization direction of -45. 1 its yaw The angle is roughly _1 (). When the first Butler input 第二 (meaning the second input 璋 2 汹) of the second Butler matrix 220 is input, the polarization direction of the electromagnetic field generated by the multipole 匕 antenna array j 20a is _45. ' And its yaw angle is roughly +3〇. When the third Butler input itch (meaning the second input 埠 253b) of the second Butler matrix 22〇 is input, the polarization direction of the electromagnetic field generated by the multi-polarized antenna array is -45. And its yaw angle is roughly 3. Entering the fourth Butler input 第二 of the second Butler matrix 22〇 (meaning that the second input 珲a4, the polarization antenna array produced by the column 20a has a polarization direction of _45. The yaw angle is substantially 12 M420057 10. In this case, the high-gain multi-polarized antenna array module according to the present embodiment can also be used to generate the beam basis of the multi-polarized antenna _ 2〇a by the second Butler matrix 220. Different angles of the yaw 'and thereby increase the receiving quality of the multi-polarized antenna array 2 〇 a. It should be noted that the yaw angle and the polarization direction described in this embodiment are only for the description 'do not do For the sake of this creation, those who have the usual knowledge in this book can design different yaw angles and polarization directions according to the spirit of this creation, so that the beam axis of the antenna array (B_Formic) can be used as a slave. And thereby generating a plurality of different directions for beamforming at a more angle. Secondly, according to still another preferred embodiment of the present invention, the first input port and the second input port 251b, 252b, 253b, 254b are further Electrically connected to the -_ device, and through the fine After the switch is performed, the multi-polarized antenna array 20a is switched between beamforming at different angles to achieve better antenna reception quality. The multi-polarized antenna according to the embodiment can be used according to the signal of the dipole antenna. The line and the new substrate are connected in a way to generate different polarization directions. And the multi-polarized antenna array consisting of a hard-numbered pole antenna can be made by connecting == (four) to generate a plurality of ~ directions. Therefore, according to the high-gain multi-polarized antenna array module of the present embodiment, the beam generated by the antenna can be used to achieve a robust reception quality and a high-gain multi-polarized antenna array and a flat swing. 1 is a combination diagram of a high-gain multi-polarized antenna array module 13 M420057 according to the present embodiment, and FIG. 2 is a high-gain multi-polarized antenna array module of the present embodiment. Figure θ, θ is a multi-polarized dipole antenna according to the present embodiment, and its top view; Figure 4 is a dipole antenna of the root _3, its side view; Figure 5 is the root The high-gain multi-polarized antenna array model of the present embodiment of the exploded view of the exploded view is a Butler matrix array according to the present creative embodiment, the functional block diagram, and the seventh diagram are based on the present A detailed diagram of the Butler matrix array of the authoring embodiment. [Main component symbol description] 20a, 20b, 20c, 20d Multi-polarized antenna array 22 Radiation plates 22a, 22b, 22c, 22d Radiation unit 24 Branch #柱26a, 26b, 26c , 26d connection post 27a, 27b jumper 28a, 28b circuit board 100 reflector 202 dipole antenna 210 first butler matrix 14 M420057 220 second butler matrix 22 la, 222a, 223a, 224a first angle hybrid coupler 22 lb, 222b, 223b, 224b second angle hybrid coupler 232a, 232b, 232c, 232d first slot 234a, 234b, 234c, 234d second slot 24 la, 242a first angle phase converter 24 lb, 242b Second angle phase converter 251 a, 252a, 253a, 254a first input 埠 25 lb, 252b, 253b, 254b second input 埠 26 la, 262a, 263a, 264a first output 埠 26 lb, 262b, 263b, 264b Second output 埠 281a, 281b, 281c, 281d first sub-spoke Unit 282a, 282b, 282c, 400 electrically 282d of the second sub-radiating element 300 of the base wafer 1000 multipolar high-gain antenna array module 15